functions_ = {"main"};
  }
  SymbolTable symbolTable(module);
  for (const std::string& f : functions_) {
    func::FuncOp func = symbolTable.lookup<func::FuncOp>(f);
    if (!func) continue;

    // This routine should only be called when control flow operations are still
    // represented with TF IfOp and WhileOp operations. In this case, there
    // should be only one basic blocks in the MLIR representation.

	}

	wasmRemoteFetchCount.With(resultTag.Value(fetchSuccess)).Increment()

	key.checksum = dChecksum
	return c.addEntry(key, b)
}

// Cleanup closes background Wasm module purge routine.
func (c *LocalFileCache) Cleanup() {
	close(c.stopChan)
}

func (c *LocalFileCache) updateChecksum(key cacheKey) bool {
	// If OCI URL having a tag or just http/https URL, we need to update checksum.

// if the status is not ok.
TF_CAPI_EXPORT extern int TF_OpIsStateful(const char* op_type,
                                          TF_Status* status);

// Platform specific initialization routine. Very few platforms actually require
// this to be called.
TF_CAPI_EXPORT void TF_InitMain(const char* usage, int* argc, char*** argv);

// Platform-specific implementation to return an unused port. (This should used

	sendLog(ctx, entry)
}

// ErrCritical is the value panic'd whenever CriticalIf is called.
var ErrCritical struct{}

// CriticalIf logs the provided error on the console. It fails the
// current go-routine by causing a `panic(ErrCritical)`.
func CriticalIf(ctx context.Context, err error, errKind ...interface{}) {
	if err != nil {
		LogIf(ctx, "", err, errKind...)
		panic(ErrCritical)
	}
}

	MOVDU	R0, -8(R1)
	MOVDU	R0, -8(R1)
	MOVDU	R0, -8(R1)
	BL	(CTR)
	MOVD	24(R1), R2
	BR	runtime·badmcall2(SB)

// systemstack_switch is a dummy routine that systemstack leaves at the bottom
// of the G stack. We need to distinguish the routine that
// lives at the bottom of the G stack from the one that lives
// at the top of the system stack because the one at the top of

	PUSHL	AX
	MOVL	DI, DX
	MOVL	0(DI), DI
	CALL	DI
	POPL	AX
	MOVL	$runtime·badmcall2(SB), AX
	JMP	AX
	RET

// systemstack_switch is a dummy routine that systemstack leaves at the bottom
// of the G stack. We need to distinguish the routine that
// lives at the bottom of the G stack from the one that lives
// at the top of the system stack because the one at the top of

		err = errNoSuchGroup
	}
	return err
}

func (ies *IAMEtcdStore) watch(ctx context.Context, keyPath string) <-chan iamWatchEvent {
	ch := make(chan iamWatchEvent)

	// go routine to read events from the etcd watch channel and send them
	// down `ch`
	go func() {
		for {
		outerLoop:
			watchCh := ies.client.Watch(ctx,
				keyPath, etcd.WithPrefix(), etcd.WithKeysOnly())

			for {

	}
}

//	 This test exercises the graceful termination scenario
//	 described in the following diagram
//	   - every vertical line is an independent timeline
//	   - the leftmost vertical line represents the go routine that
//	     is executing GenericAPIServer.Run method
//	   - (signal name) indicates that the given lifecycle signal has been fired
//
//	                                 stopCh
//	                                   |

	// nosplit-overflow analysis would trigger a link failure. On the
	// other hand if they not tagged NOSPLIT then this could cause
	// problems when building the runtime (since there may be calls to
	// asm routine in cases where it's not safe to grow the stack). In
	// most cases the wrapper would be (in effect) inlined, but are
	// there (perhaps) indirect calls from the runtime that could run
	// into trouble here.

	indexPending bool // Whether we have an indexed argument that has not resolved.
	nbytes       int  // number of bytes of the format string consumed.
}

// checkPrintf checks a call to a formatted print routine such as Printf.
func checkPrintf(pass *analysis.Pass, kind Kind, call *ast.CallExpr, fn *types.Func) {
	format, idx := formatString(pass, call)
	if idx < 0 {
		if false {